Not all welding machines are fully equipped with all the necessary accessories: cables, holders, masks. All this has to be purchased additionally. Particular attention should be paid to the choice of wire. Also, often the cable included with the welding machine is very short, so they buy an additional one of the required length.
The welding cable is a flexible conductor; designed to supply current to the welding machine or to the holder holding the electrode, as well as to the ground clamps.
A unit of any type will operate smoothly and will serve the owner for a long time if the conductor is selected correctly. In the article we will consider the important characteristics of this product: welding cable KG, its characteristics and types.
VVG and VVGng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1x1.5 | cool* RE* | 5,4 | 43 |
1x2.5 | 5,8 | 55 | |
1x4 | 6,6 | 78 | |
1x6 | 7,1 | 100 | |
1x10 | 7,9 | 143 | |
1x16 | 9,5 | 215 | |
1x25 | 11 | 316 | |
1x35 | 13 | 418 | |
1x50 | 13,5 | 554 | |
1x70 | R.M. | 16,5 | 797 |
1x95 | 19 | 1086 | |
1x120 | 20,7 | 1345 | |
1x150 | 22,6 | 1668 | |
1x185 | 24,8 | 2014 | |
1x240 | 27,6 | 2535 | |
2x2.5 | cool RE | 9,8 | 120 |
2x4 | 11,5 | 168 | |
2x6 | 12,5 | 212 | |
2x10 | 14,1 | 302 | |
2x16 | 16 | 425 | |
2x25 | 19,4 | 646 | |
3x2.5 | cool RE | 10,3 | 154 |
3x4 | 12,2 | 221 | |
3x6 | 13,2 | 285 | |
3x10 | 15 | 414 | |
3x16 | 16,9 | 594 | |
3x25 | 20,6 | 909 | |
3x35 | cool* SE* | 20,6 | 1216 |
3x50 | 23,8 | 1640 | |
3x70 | S.M. | 27,8 | 2325 |
3x95 | 31,5 | 3102 | |
3x120 | 34,5 | 3920 | |
3x150 | 37,2 | 4666 | |
3x185 | 41,6 | 5839 | |
3x2.5+1x1.5 | cool RE/RE | 11,2 | 181 |
3x4+1x2.5 | 12,8 | 256 | |
3x6+1x4 | 14,4 | 342 | |
3x10+1x6 | 16,4 | 492 | |
3x16+1x10 | 19 | 712 | |
3x25+1x16 | 22,7 | 1087 | |
3x35+1x16 | SE/RE* | 22,5 | 1410 |
3x50+1x25 | SE/RE* | 26,2 | 1937 |
3x70+1x35 | SM/SE* | 31 | 2786 |
3x95+1x50 | SM/SE* | 35,9 | 3756 |
3x120+1x70 | SM/SM | 39,7 | 4634 |
3x150+1x70 | SM/SM | 43 | 5677 |
4x2.5 | cool RE | 11,2 | 191 |
4x4 | 13,3 | 278 | |
4x6 | 14,4 | 361 | |
4x10 | 16,4 | 531 | |
4x16 | 19 | 768 | |
4x25 | 22,7 | 1178 | |
4x35 | cool* SE* | 25,4 | 1596 |
4x50 | 28,2 | 2370 | |
4x70 | S.M. | 31,7 | 3052 |
4x95 | 36,6 | 4184 | |
4x120 | 39,7 | 5127 |
Cable voltage loss calculator
When designing power lines of long length, the choice of conductor according to the cross-section and material of the current-carrying cores is made not only on the basis of the power of the connected load, but also taking into account the voltage loss (∆U).
Formulas for calculating the voltage drop in a cable line
Example No. 1 Calculation of line voltage loss (between phases)
Initial data
A line 100 meters long is connected to a three-phase source (nominal voltage - 380 V, current - 16 A, shift angle - 180) of electric current using a power conductor of the VVGng brand 4x6 mm sq. with inductive and active resistances of 0.09 and 3.09 Ohm/km, respectively.
Calculation
According to the formula shown in the picture, the voltage drop will be equal to:
∆U = √3•I• (R•Сosȹ•L+X •Sinȹ•L) = 1.73•16•(3.09•0.95•0.1+0.09•(-0.75 ) •0.1)=27.68•0.287=7.93 V.
Thus, in this case, a voltage loss of 7.93 V or 2.09% of the nominal value is observed in the laid section.
Example No. 2 Calculation of phase voltage losses (between phase and zero)
Initial data
A line 50 meters long is connected to a single-phase power source (rated voltage - 220 V, current - 5 A, shift angle - 180) of electric current using a power conductor brand VVGng-LS 3x4mm sq., the inductive and active resistance of which is 0.095 and 4.65 Ohm/km, respectively.
Calculation
According to the formula shown in the picture, the voltage drop will be equal to:
∆U = 2•I• (R•Сosȹ•L+X •Sinȹ•L) = 2•5•(4.65•0.95•0.05+0.095•(-0.75) •0.05 )=10•0.216= 2.16 V.
Thus, in this case, a voltage loss of 2.16 V or 0.98% of the nominal value is observed in the laid section.
Important! According to GOST R 50571.5.52-2011, the maximum permissible voltage drop on lighting devices powered from the general power supply system should not exceed 3% of the rated value. For other devices, it is allowed to reduce the supply voltage relative to the nominal by 5%. If these standard values are exceeded, devices and equipment connected to the network may not operate correctly (their power and performance are reduced, spontaneous shutdown is observed). In some cases, if electrical appliances have controllers that are very sensitive to mains voltage, the latter may fail, thereby rendering the heating gas boilers, refrigerators, and pumping stations they control unusable.
AVVG and AVVGng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1x2.5 | cool* RE* | 5,8 | 40 |
1x4 | 6,7 | 55 | |
1x6 | 7,2 | 64 | |
1x10 | 7,9 | 82 | |
1x16 | 9,5 | 120 | |
1x25 | 11 | 163 | |
1x35 | 12 | 201 | |
1x50 | 13,5 | 260 | |
1x70 | 15 | 334 | |
1x95 | 19 | 493 | |
1x120 | 20,7 | 586 | |
1x150 | R.M. | 22,6 | 710 |
1x185 | 24,8 | 678 | |
1x240 | 27,6 | 1056 | |
2x2.5 | cool RE | 9,8 | 89 |
2x4 | 11,6 | 119 | |
2x6 | 12,6 | 141 | |
2x10 | 14,2 | 181 | |
2x16 | 15,8 | 228 | |
2x25 | 19,3 | 338 | |
3x2.5 | cool RE | 10,3 | 107 |
3x4 | 12,2 | 148 | |
3x6 | 13,2 | 178 | |
3x10 | 15 | 233 | |
3x16 | 17 | 305 | |
3x25 | 20,7 | 456 | |
3x35 | cool* SE* | 20,1 | 563 |
3x50 | 22,9 | 734 | |
3x70 | 26 | 966 | |
3x95 | 29,4 | 1258 | |
3x120 | 31,8 | 1507 | |
3x150 | 35 | 1829 | |
3x185 | 38,4 | 2224 | |
3x240 | 43,3 | 2834 | |
3x4+1x2.5 | cool* RE/RE* | 12,9 | 168 |
3x6+1x4 | 14,5 | 211 | |
3x10+1x6 | 16,5 | 275 | |
3x16+1x10 | 17,5 | 355 | |
3x25+1x16 | 21,3 | 527 | |
3x35+1x16 | cool* SE/RE* | 22,1 | 642 |
3x50+1x25 | 25,8 | 875 | |
3x70+1x35 | 28,7 | 1119 | |
3x95+1x50 | 32,6 | 1461 | |
3x120+1x70 | 36 | 1806 | |
3x150+1x50 | 38,3 | 2037 | |
3x150+1x70 | 38,7 | 2102 | |
3x185+1x50 | 41,8 | 2430 | |
3x185+1x95 | 42,6 | 2585 | |
3x240+1x120 | SE/SE* | 48,1 | 3326 |
4x2.5 | cool RE | 11,2 | 129 |
4x4 | 13,3 | 180 | |
4x6 | 14,5 | 219 | |
4x10 | 16,5 | 290 | |
4x16 | 19 | 400 | |
4x25 | 22,8 | 574 | |
4x35 | cool* SE* | 22,6 | 719 |
4x50 | 26,1 | 964 | |
4x70 | 29,2 | 1240 | |
4x95 | 33,1 | 1623 | |
4x120 | 36,4 | 1981 | |
4x150 | 39,6 | 2370 | |
4x185 | 43,4 | 2888 | |
4x240 | 49,2 | 3734 |
Tables of the weight of copper and aluminum in cables and wires.
Formula for calculating the weight of copper, aluminum in kg per 1 km of cable or wire length:
Where,
copper density = 8.9
aluminum density = 2.7
For example: Weight of copper in 1 km of cable VVG 3x1.5 = 3*1.5*8.9 = 40.05 kg per 1 km.
Table of copper weight in VVG power cable.
Cable name Copper weight, kg/km
Cable VVG 2x1.5 | 21,36 |
Cable VVG 2x2.5 | 44,50 |
Cable VVG 2x4 | 71,20 |
Cable VVG 2x6 | 106,80 |
Cable VVG 2x10 | 178,00 |
Cable VVG 3x1.5 | 40,05 |
Cable BBГ 3x2.5 | 66,75 |
Cable VVG 3x4 | 106,80 |
Cable VVG 3x6 | 160,20 |
Cable VVG 3x10 | 267,00 |
Cable VVG 4x1.5 | 53,40 |
Cable VVG 4x2.5 | 89,00 |
Cable VVG 4x4 | 142,40 |
Cable VVG 4x6 | 213,60 |
Cable VVG 4x10 | 356,00 |
Cable VVG 4x16 | 569,60 |
Cable VVG 4x25 | 890,00 |
Cable VVG 4x35 | 1 246,00 |
Cable VVG 4x50 | 1 780,00 |
Cable VVG 5x1.5 | 66,75 |
Cable VVG 5x2.5 | 111,25 |
Cable VVG 5x4 | 178,00 |
Cable VVG 5x6 | 267,00 |
Cable VVG 5x10 | 445,00 |
Cable VVG 5x16 | 712,00 |
Cable VVG 5x25 | 1 112,50 |
Cable VVG 5x35 | 1 557,50 |
Cable VVG 5x50 | 2 225,00 |
Cable name Aluminum weight, kg/km
Cable AVVG 2x2.5 | 13,50 |
Cable AVVG 2x4 | 21,60 |
Cable AVVG 2x6 | 32,40 |
Cable AVVG 2x10 | 54,00 |
Cable AVVG 2x16 | 86,40 |
Cable AVVG 3x2.5 | 20,25 |
Cable AVVG 3x4 | 32,40 |
Cable AVVG 3x6 | 48,60 |
Cable AVVG 3x10 | 81,00 |
Cable AVVG 3x16 | 129,60 |
Cable AVVG 3x4+1x2.5 | 39,15 |
Cable AVVG 3x6+1x4 | 59,40 |
Cable AVVG 3x10+1x6 | 97,20 |
Cable AVVG 3x16+1x10 | 156,60 |
Cable AVVG 3x25+1x16 | 47,25 |
Cable AVVG 3x35+1x16 | 326,70 |
Cable AVVG 3x50+1x25 | 472,50 |
Cable AVVG 3x70+1x35 | 661,50 |
Cable AVVG 3x95+1x50 | 904,50 |
Cable AVVG 3x120+1x70 | 1 161,00 |
Cable AVVG 3x150+1x70 | 1 404,00 |
Cable AVVG 3x185+1x95 | 1 755,00 |
Cable AVVG 3x240+1x120 | 2 268,00 |
Cable AVVG 4x2.5 | 27,00 |
Cable AVVG 4x4 | 43,20 |
Cable AVVG 4x6 | 64,80 |
Cable AVVG 4x10 | 108,00 |
Cable AVVG 4x16 | 172,80 |
Cable AVVG 4x25 | 270,00 |
Cable AVVG 4x35 | 378,00 |
Cable AVVG 4x50 | 540,00 |
Cable AVVG 4x70 | 756,00 |
Cable AVVG 4x95 | 1 026,00 |
Cable AVVG 4x120 | 1 296,00 |
Cable AVVG 4x150 | 1 620,00 |
Cable AVVG 4x185 | 1 998,00 |
Cable AVVG 4x240 | 2 592,00 |
Name of wire Copper weight, kg/km
Wire PVS 2x0.5 | 8,90 |
Wire PVS 2x0.75 | 13,35 |
PVS wire 2x1 | 17,80 |
Wire PVS 2x1.5 | 26,70 |
Wire PVS 2x2.5 | 44,50 |
PVS wire 2x4 | 71,20 |
PVS wire 2x6 | 106,80 |
Wire PVS 3x0.5 | 13,35 |
Wire PVS 3x0.75 | 20,03 |
Wire PVS 3x1 | 26,70 |
Wire PVS 3x1.5 | 40,05 |
Wire PVS 3x2.5 | 66,75 |
PVS wire 3x4 | 106,80 |
PVS wire 3x6 | 160,20 |
Wire PVS 4x0.5 | 17,80 |
Wire PVS 4x0.75 | 26,70 |
Wire PVS 4x1 | 35,60 |
Wire PVS 4x1.5 | 53,40 |
Wire PVS 4x2.5 | 89,00 |
PVS wire 4x4 | 142,40 |
PVS wire 4x6 | 213,60 |
Wire PVS 5x0.5 | 22,25 |
Wire PVS 5x0.75 | 33,38 |
Wire PVS 5x1 | 44,50 |
Wire PVS 5x1.5 | 66,75 |
Wire PVS 5x2.5 | 111,25 |
PVS wire 5x4 | 178,00 |
PVS wire 5x6 | 267,00 |
Name of wire Copper weight, kg/km
Wire SHVVP 2x0.5 | 8,90 |
Wire SHVVP 2x0.75 | 13,35 |
Wire SHVVP 2x1 | 17,80 |
Wire SHVVP 2x1.5 | 26,70 |
Wire SHVVP 2x2.5 | 44,50 |
ShVVP wire 2x4 | 71,20 |
Wire SHVVP 2x6 | 106,80 |
Wire SHVVP 3x0.5 | 13,35 |
Wire SHVVP 3x0.75 | 20,03 |
Wire SHVVP 3x1 | 26,70 |
Wire SHVVP 3x1.5 | 40,05 |
Wire SHVVP 3x2.5 | 66,75 |
Wire SHVVP 3x4 | 106,80 |
Wire SHVVP 3x6 | 160,20 |
Name of wire Copper weight, kg/km
Ball screw wire 2x0.2 | 3,56 |
Ball screw wire 2x0.35 | 6,23 |
Ball screw wire 2x0.5 | 8,90 |
Ball screw wire 2x0.75 | 13,35 |
Ball screw wire 2x1.0 | 17,80 |
Ball screw wire 2x1.5 | 26,70 |
Name of wire Weight of aluminum, kg/km
Wire SIP-4 2x10 | 54,00 |
Wire SIP-4 2x16 | 86,40 |
Wire SIP-4 2x25 | 135,00 |
Wire SIP-4 2x35 | 189,00 |
Wire SIP-4 2x50 | 270,00 |
Wire SIP-4 2x70 | 378,00 |
Wire SIP-4 2x95 | 513,00 |
Wire SIP-4 2x120 | 648,00 |
Wire SIP-4 3x10 | 81,00 |
Wire SIP-4 3x16 | 129,60 |
Wire SIP-4 3x25 | 202,50 |
Wire SIP-4 3x35 | 283,50 |
Wire SIP-4 3x50 | 405,00 |
Wire SIP-4 3x70 | 567,00 |
Wire SIP-4 3x95 | 769,50 |
Wire SIP-4 3x120 | 972,00 |
Wire SIP-4 4x10 | 108,00 |
Wire SIP-4 4x16 | 172,80 |
Wire SIP-4 4x25 | 270,00 |
Wire SIP-4 4x35 | 378,00 |
Wire SIP-4 4x50 | 540,00 |
Wire SIP-4 4x70 | 756,00 |
Wire SIP-4 4x95 | 1 026,00 |
Wire SIP-4 4x120 | 1 296,00 |
Cable name Copper weight, kg/km
Cable KG 1 x 2.5 | 22,25 |
Cable KG 1 x 4 | 35,60 |
Cable KG 1 x 6 | 53,40 |
Cable KG 1 x 10 | 89,00 |
Cable KG 1 x 16 | 142,40 |
Cable KG 1 x 25 | 222,50 |
Cable KG 1 x 35 | 311,50 |
Cable KG 1 x 50 | 445,00 |
Cable KG 1 x 70 | 623,00 |
Cable KG 1 x 95 | 845,50 |
Cable KG 1 x 120 | 1 068,00 |
Cable KG 1 x 150 | 1 335,00 |
Cable KG 1 x 185 | 1 646,50 |
Cable KG 1 x 240 | 2 136,00 |
Cable KG 1 x 300 | 2 670,00 |
Cable KG 1 x 400 | 3 560,00 |
Cable KG 2 x 0.75 | 13,35 |
Cable KG 2 x 1.0 | 17,80 |
Cable KG 2 x 1.5 | 26,70 |
Cable KG 2 x 2.5 | 44,50 |
Cable KG 2 x 4 | 71,20 |
Cable KG 2 x 6 | 106,80 |
Cable KG 2 x 10 | 178,00 |
Cable KG 2 x 16 | 284,80 |
Cable KG 2 x 25 | 445,00 |
Cable KG 2 x 35 | 623,00 |
Cable KG 2 x 50 | 890,00 |
Cable KG 2 x 70 | 1 246,00 |
Cable KG 2 x 95 | 1 691,00 |
Cable KG 2 x 120 | 2 136,00 |
Cable KG 2 x 150 | 2 670,00 |
Cable KG 3 x 0.75 | 20,03 |
Cable KG 3 x 1.0 | 26,70 |
Cable KG 3 x 1.5 | 40,05 |
Cable KG 3 x 2.5 | 66,75 |
Cable KG 3 x 4 | 106,80 |
Cable KG 3 x 6 | 160,20 |
Cable KG 3 x 10 | 267,00 |
Cable KG 3 x 16 | 427,20 |
Cable KG 3 x 25 | 667,50 |
Cable KG 3 x 35 | 934,50 |
Cable KG 3 x 50 | 1 335,00 |
Cable KG 3 x 70 | 1 869,00 |
Cable KG 3 x 95 | 2 536,50 |
Cable KG 3 x 120 | 3 204,00 |
Cable KG 3 x 150 | 4 005,00 |
Cable KG 4 x 1.0 | 35,60 |
Cable KG 4 x 1.5 | 53,40 |
Cable KG 4 x 2.5 | 89,00 |
Cable KG 4 x 4 | 142,40 |
Cable KG 4 x 6 | 213,60 |
Cable KG 4 x 10 | 356,00 |
Cable KG 4 x 16 | 569,60 |
Cable KG 4 x 25 | 890,00 |
Cable KG 4 x 35 | 1 246,00 |
Cable KG 4 x 50 | 1 780,00 |
Cable KG 4 x 70 | 2 492,00 |
Cable KG 4 x 95 | 3 382,00 |
Cable KG 4 x 120 | 4 272,00 |
Cable KG 4 x 150 | 5 340,00 |
Cable KG 5 x 1.0 | 44,50 |
Cable KG 5 x 1.5 | 66,75 |
Cable KG 5 x 2.5 | 111,25 |
Cable KG 5 x 4 | 178,00 |
Cable KG 5 x 6 | 267,00 |
Cable KG 5 x 10 | 445,00 |
Cable KG 5 x 16 | 712,00 |
Cable KG 5 x 25 | 1 112,50 |
Cable KG 5 x 35 | 1 557,50 |
Cable KG 5 x 50 | 2 225,00 |
Cable KG 5 x 70 | 3 115,00 |
Cable KG 5 x 95 | 4 227,50 |
Cable KG 5 x 120 | 5 340,00 |
Cable KG 2 x 0.75 + 1 x 0.75 | 20,03 |
Cable KG 2 x 1 + 1 x 1 | 26,70 |
Cable KG 2 x 1.5 + 1 x 1.5 | 40,05 |
Cable KG 2 x 2.5 + 1 x 1.5 | 57,85 |
Cable KG 2 x 4 + 1 x 2.5 | 93,45 |
Cable KG 2 x 6 + 1 x 4 | 142,40 |
Cable KG 2 x 10 + 1 x 6 | 231,40 |
Cable KG 2 x 16 + 1 x 6 | 338,20 |
Cable KG 2 x 25 + 1 x 10 | 534,00 |
Cable KG 2 x 35 + 1 x 10 | 712,00 |
Cable KG 2 x 50 + 1 x 16 | 1 032,40 |
Cable KG 2 x 70 + 1 x 25 | 1 468,50 |
Cable KG 2 x 70 + 1 x 35 | 1 557,50 |
Cable KG 2 x 95 + 1 x 35 | 2 002,50 |
Cable KG 2 x 120 + 1 x 35 | 2 447,50 |
Cable KG 2 x 150 + 1 x 50 | 3 115,00 |
Cable KG 3 x 2.5 + 1 x 1.5 | 80,10 |
Cable KG 3 x 4 + 1 x 2.5 | 129,05 |
Cable KG 3 x 6 + 1 x 4 | 195,80 |
Cable KG 3 x 10 + 1 x 6 | 320,40 |
Cable KG 3 x 16 + 1 x 6 | 480,60 |
Cable KG 3 x 25 + 1 x 10 | 756,50 |
Cable KG 3 x 35 + 1 x 10 | 1 023,50 |
Cable KG 3 x 50 + 1 x 16 | 1 477,40 |
Cable KG 3 x 70 + 1 x 25 | 2 091,50 |
Cable KG 3 x 95 + 1 x 35 | 2 848,00 |
Cable KG 3 x 120 + 1 x 35 | 3 515,50 |
Cable KG 3 x 150 + 1 x 50 | 4 450,00 |
nano-city.com
AVBVng and VBVng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
3x25 | coolant (RE) | 35,8 | 1494 |
3x35 | cool* SE* | 34,7 | 1671 |
3x50 | 36,6 | 1881 | |
3x70 | 39,3 | 2270 | |
3x95 | 42,6 | 2608 | |
3x120 | 45 | 2947 | |
3x150 | 47,3 | 3312 | |
3x25 | coolant (RE) | 35,8 | 1734 |
3x35 | cool* SE* | 34,8 | 2270 |
3x50 | 36,7 | 2750 | |
3x70 | S.M. | 41,1 | 3660 |
Formula for calculating copper content in cable
In order to calculate the copper content in any cable, you need to know the following parameters:
D is the diameter of one core or S is the cross-section of the core,
p is the density of copper/aluminium, pcopper can be taken equal to 8900 kg/m3, aluminum we will take 2700 kg/m3
Cook - cable twist coefficient,
So, if you know the cross-section of the copper core, then the formula for the copper content (M) in the cable will be as follows:
If you don’t know the cross-section, it’s easier to measure the diameter of the cores and use this formula:
To correctly measure the diameter and, if necessary, calculate the cable cross-section, use our article “How to determine the cable cross-section by diameter?”
The twist coefficient (Kuk) is used for cables with multi-wire conductors, for cables where the conductors are twisted into pairs, quads, etc.
Twist factor is the ratio of the length of the twist element in a twisted cable product to the length of the product (GOST 15845-80)
For solid cores Kuk = 1, the twist factor for stranded cores can be found in RD 16.405-87 “Calculation of masses of cable products materials” (Table 6) or the newer standard STB 2194-2011 (Table 6-7) similar to the first. On our website you can download STB 2194-2011 by clicking on the link.
ASB, ASBG, ASBl, ASB2l, TsASB, TsASBG, TsASBL, TsASB2l
Voltage, U (Uo/U) kV | Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1 (1/1) | 3×35 | cool* SE* | 28,2 | 1805 |
3×50 | 30,3 | 2091 | ||
3×70 | 33,1 | 2522 | ||
3×95 | 36,1 | 3026 | ||
3×120 | 39,3 | 3578 | ||
3×150 | 41,7 | 4177 | ||
3×185 | 45,2 | 4898 | ||
3×240 | 49,5 | 5895 | ||
3×35+1×16 | cool* SE/RE* | 30,1 | 2053 | |
3×50+1×25 | 32,8 | 2483 | ||
3×70+1×35 | 35,8 | 2985 | ||
3×95+1×50 | 39,3 | 3608 | ||
3×120+1×70 | 42,8 | 4273 | ||
3×150+1×70 | 45 | 4900 | ||
3×150+1×50 | 44,2 | 4757 | ||
3×185+1×50 | 47,6 | 5496 | ||
4×35 | cool* SE* | 31,6 | 2221 | |
4×50 | 34,1 | 2589 | ||
4×70 | 37,4 | 3129 | ||
4×95 | 41,3 | 3919 | ||
4×120 | 45,1 | 4648 | ||
4×150 | 48 | 5311 | ||
4×185 | 52,2 | 6306 | ||
4×240 | 57,1 | 7590 | ||
6 (6/6) | 3×35 | cool* SE* | 34,6 | 2575 |
3×50 | 36,4 | 2915 | ||
3×70 | 39,3 | 3395 | ||
3×95 | 42,3 | 3940 | ||
3×120 | 44,8 | 4459 | ||
3×150 | 47,2 | 5096 | ||
3×185 | 50,2 | 5813 | ||
3×240 | 54,4 | 6873 | ||
10 (10/10) | 3×35 | cool* SE* | 38,6 | 3150 |
3×50 | 40,5 | 3455 | ||
3×70 | 43,3 | 4018 | ||
3×95 | 46,3 | 4599 | ||
3×120 | 48,8 | 5153 | ||
3×150 | 51,2 | 5850 | ||
3×185 | 54,2 | 6597 | ||
3×240 | 58,2 | 7602 |
Cable weight calculator
Calculate the weight of the AVBbShv, VVGng, VVG, KVVG, SIP-4 cable by length using an online calculator - a table of the weight of 1 m of cable and the weight of copper/aluminum in the cable.
We suggest calculating the weight of the cable and wire using this online calculator or manually using the tables below. The program database contains data on the mass of over 1040 conductors. To quickly select the product you need, use the keyboard (search by first letter). The cable calculator uses reference information from manufacturers, however, minor calculation errors are acceptable. The tool can be useful when selecting the carrying capacity of delivery vehicles or when calculating the load on support structures and power lines. The weight and size characteristics of cable drums are taken from GOST 5151-79. To get the calculation result, click the “ Calculate ” button.
Related regulatory documents:
- SP 76.13330.2016 “Electrical devices”
- GOST 31946-2012 “Self-supporting insulated and protected wires for overhead power lines”
GOST 31947-2012 “Wires and cables for electrical installations for rated voltage up to 450/750 V”
- GOST 6323-79 “Wires with polyvinyl chloride insulation for electrical installations”
- GOST 31996-2012 “Power cables with plastic insulation for a rated voltage of 0.66; 1 and 3 kV"
- GOST 433-73 “Power cables with rubber insulation”
Source
AVBbShv and AVBbShng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1x50 | cool* RE* | 16,6 | 481 |
1x70 | 19,2 | 626 | |
1x95 | 22,2 | 821 | |
1x120 | 24,3 | 998 | |
1x150 | R.M. | 24,6 | 1030 |
1x185 | 26,6 | 1195 | |
1x240 | 31,7 | 1591 | |
1x300 | 33,9 | 1778 | |
1x400 | 37,5 | 2248 | |
1x500 | 40,6 | 2642 | |
1x625 | 44,3 | 3145 | |
1x800 | 53 | 4100 | |
2x4 | cool* RE* | 15,2 | 390 |
2x6 | 16,3 | 439 | |
2x10 | 17,8 | 526 | |
2x16 | 19,4 | 615 | |
2x25 | 22,6 | 669 | |
2x35 | 24,9 | 812 | |
2x50 | 27,9 | 989 | |
3x2.5 | cool RE | 14 | 329 |
3x4 | 16 | 420 | |
3x6 | 19,1 | 510 | |
3x10 | 20,9 | 594 | |
3x16 | 21,5 | 598 | |
3x25 | 25,2 | 807 | |
3x35 | cool* SE* | 24,2 | 881 |
3x50 | 27,4 | 1120 | |
3x70 | 30,1 | 1372 | |
3x95 | 33,5 | 1714 | |
3x120 | 36 | 2000 | |
3x150 | 39,2 | 2370 | |
3x185 | 42,6 | 2816 | |
3x240 | 47,9 | 3545 | |
3x4+1x2.5 | cool RE/RE | 15 | 362 |
3x6+1x4 | 20,4 | 563 | |
3x10+1x6 | 22,3 | 668 | |
3x16+1x10 | 22 | 655 | |
3x25+1x16 | 25,9 | 887 | |
3x35+1x16 | coolant* SE/RE | 26,7 | 1016 |
3x50+1x25 | 29,9 | 1276 | |
3x70+1x35 | 32,9 | 1564 | |
3x95+1x50 | 37,2 | 2000 | |
3x120+1x70 | 40,1 | 2358 | |
3x150+1x50 | 42,5 | 2624 | |
3x150+1x70 | 42,9 | 2696 | |
3x185+1x50 | 46,3 | 3114 | |
3x185+1x95 | 47,2 | 3282 | |
3x240+1x120 | SE/SE* | 52,3 | 4061 |
4x2.5 | cool RE | 15 | 362 |
4x4 | 17,1 | 472 | |
4x6 | 20,4 | 569 | |
4x10 | 22,3 | 681 | |
4x16 | 23,2 | 702 | |
4x25 | 27,3 | 959 | |
4x35 | cool* SE* | 27,1 | 1100 |
4x50 | 30,3 | 1372 | |
4x70 | 33,3 | 1694 | |
4x95 | 37,6 | 2172 | |
4x120 | 40,5 | 2542 | |
4x150 | 43,7 | 2979 | |
4x185 | 48 | 3600 | |
4x240 | 53,3 | 4487 |
Table of copper weight in VVG power cable.
Cable name | Copper weight, kg/km |
Cable VVG 2x1.5 | 21,36 |
Cable VVG 2x2.5 | 44,50 |
Cable VVG 2x4 | 71,20 |
Cable VVG 2x6 | 106,80 |
Cable VVG 2x10 | 178,00 |
Cable VVG 3x1.5 | 40,05 |
Cable BBГ 3x2.5 | 66,75 |
Cable VVG 3x4 | 106,80 |
Cable VVG 3x6 | 160,20 |
Cable VVG 3x10 | 267,00 |
Cable VVG 4x1.5 | 53,40 |
Cable VVG 4x2.5 | 89,00 |
Cable VVG 4x4 | 142,40 |
Cable VVG 4x6 | 213,60 |
Cable VVG 4x10 | 356,00 |
Cable VVG 4x16 | 569,60 |
Cable VVG 4x25 | 890,00 |
Cable VVG 4x35 | 1 246,00 |
Cable VVG 4x50 | 1 780,00 |
Cable VVG 5x1.5 | 66,75 |
Cable VVG 5x2.5 | 111,25 |
Cable VVG 5x4 | 178,00 |
Cable VVG 5x6 | 267,00 |
Cable VVG 5x10 | 445,00 |
Cable VVG 5x16 | 712,00 |
Cable VVG 5x25 | 1 112,50 |
Cable VVG 5x35 | 1 557,50 |
Cable VVG 5x50 | 2 225,00 |
AVBbShv
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1x240+2x1 | round multi-wire round stranded | 31,7 | 1591 |
1x300+2x1 | 33,9 | 1778 | |
1x400+2x1 | 37,4 | 2248 | |
1x500+2x1 | 40,6 | 2642 | |
1x625+2x1 | 44,3 | 3145 | |
1x800+2x1 | 53 | 4100 |
Cable diameter
This characteristic of cable products is measured by the outer sheath. The value of the diameter is influenced by such design features of the conductor as the thickness of the outer insulation, the number and cross-sectional area of the conductors. The outer diameter varies from 5-5.5 to 80-100 mm.
Thus, using both an online cable calculator and calculation of its weight and cross-section using the above methods, you can independently calculate the number and select the brand of wires (VVG, AVVG VBBShV, PVS, etc.) required to connect a cottage or country house home to the nearest power line.
EVBV, EVBVng, EVBVk, EVBVkng, EPvBV, EPvBVng
Voltage, U (Uo/U) kV | Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1,2 | 3x16/10 | cool* RE* | 23,1 | 1321 |
3x25/10 | 26,8 | 1797 | ||
3x35/110 | R.M. | 28,9 | 2178 | |
3x50/10 | 32,2 | 2754 | ||
3x70/10 | 40,8 | 4346 | ||
3x95/10 | 44,6 | 5201 | ||
3x120/10 | 47,8 | 6105 | ||
6 | 3x16/10 | cool* RE* | 35,3 | 2320 |
3x25/10 | 37,7 | 2766 | ||
3x35/10 | R.M. | 39,8 | 3196 | |
3x50/10 | 42,2 | 3752 | ||
3x70/10 | 50,9 | 5585 | ||
3x95/10 | 53,8 | 6404 | ||
3x120/10 | 57 | 7431 |
Table of copper weight in ball screw wire
Copper content in ball screw wires
On a note . To calculate the weight of a cable without the help of an online calculator, use the following simple formula: Vk=πr2ρln, where r is the radius of the core, n is the number of cores, l is the length of the conductor, ρ is the density of the core material (for copper it is 8.9 g/cm3 , for aluminum –2.7 g/cm3).
APvVG and APvVGng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
3x2.5 | cool RE | 12,8 | 173 |
3x4 | 13,9 | 203 | |
3x6 | 14,9 | 236 | |
3x10 | 16,6 | 296 | |
3x16 | 19 | 395 | |
3x25 | 22,4 | 538 | |
3x35 | cool* SE* | 21,7 | 624 |
3x50 | 24,5 | 800 | |
3x70 | 27,6 | 1033 | |
3x95 | 30,6 | 1306 | |
3x120 | 33,5 | 1579 | |
3x150 | 37,1 | 1924 | |
3x185 | 40,9 | 2346 | |
3x240 | 45,8 | 2967 | |
3x4+1x2.5 | cool RE/RE | 14,8 | 228 |
3x6+1x4 | 16 | 268 | |
3x10+1x6 | 17,9 | 338 | |
3x16+1x10 | 20,6 | 453 | |
3x25+1x16 | 23,9 | 632 | |
3x35+1x16 | cool* SE/RE* | 24,4 | 734 |
3x50+1x25 | 27,5 | 933 | |
3x70+1x35 | 30,6 | 1194 | |
3x95+1x50 | 34,5 | 1546 | |
3x120+1x70 | SE/SE* | 37,7 | 1885 |
3x150+1x50 | SE/RE* | 39,6 | 2119 |
3x150+1x70 | SE/SE* | 40,3 | 2186 |
3x185+1x50 | SE/RE* | 43 | 2531 |
3x185+1x95 | SE/SE* | 44,8 | 2730 |
4x2.5 | cool RE | 13,7 | 196 |
4x4 | 14,8 | 234 | |
4x6 | 16 | 274 | |
4x10 | 17,9 | 350 | |
4x16 | 20,6 | 471 | |
4x25 | 24,7 | 675 | |
4x35 | cool* SE* | 25,3 | 808 |
4x50 | 28,2 | 1012 | |
4x70 | 31,5 | 1310 | |
4x95 | 35,4 | 1700 | |
4x120 | 38,4 | 2050 | |
4x150 | 41,7 | 2454 | |
4x185 | 46,1 | 3037 |
Table of weight of copper, aluminum, lead in cables and wires
If the cable has a sheath (lead or aluminum), then using the formula below you can calculate its weight in 1 linear meter of cable:
m (gram) = p x 3.14 × 100 (cm) x (R2 (cm) - r2 (cm))
p - metal density (lead - 11.3; aluminum - 2.9) R - outer radius of the shell (cm)
r - internal radius of the shell (cm)
Example 1: Cable ААШв 4×120. Four aluminum conductors with a cross section of 120 sq. mm. 4 × 0.324 g = 1.296 kg per 1 linear. m
and aluminum shell 2.9 × 3.14 × 100 x (22 - 1.852) = 526 g.
Example 2: MCSB cable 4×4 × 1.2. Four copper quads with a diameter of 1.2 mm. 4 × 4 x 0.010 = 0.160 kg per 1 linear. m
and lead sheath 11.3 × 3.14 × 100 x (1.32 - 1.182) = 1056 g.
copper density = 8.9
aluminum density = 2.7
For example: Weight of copper in 1 km of cable VVG 3x1.5 = 3*1.5*8.9 = 40.05 kg per 1 km.
Table of copper weight in VVG power cables
Cable name Copper weight, kg/km
Cable VVG 2x1.5 | 21,36 |
Cable VVG 2x2.5 | 44,50 |
Cable VVG 2x4 | 71,20 |
Cable VVG 2x6 | 106,80 |
Cable VVG 2x10 | 178,00 |
Cable VVG 3x1.5 | 40,05 |
Cable BBГ 3x2.5 | 66,75 |
Cable VVG 3x4 | 106,80 |
Cable VVG 3x6 | 160,20 |
Cable VVG 3x10 | 267,00 |
Cable VVG 4x1.5 | 53,40 |
Cable VVG 4x2.5 | 89,00 |
Cable VVG 4x4 | 142,40 |
Cable VVG 4x6 | 213,60 |
Cable VVG 4x10 | 356,00 |
Cable VVG 4x16 | 569,60 |
Cable VVG 4x25 | 890,00 |
Cable VVG 4x35 | 1 246,00 |
Cable VVG 4x50 | 1 780,00 |
Cable VVG 5x1.5 | 66,75 |
Cable VVG 5x2.5 | 111,25 |
Cable VVG 5x4 | 178,00 |
Cable VVG 5x6 | 267,00 |
Cable VVG 5x10 | 445,00 |
Cable VVG 5x16 | 712,00 |
Cable VVG 5x25 | 1 112,50 |
Cable VVG 5x35 | 1 557,50 |
Cable VVG 5x50 | 2 225,00 |
Cable name Aluminum weight, kg/km
Cable AVVG 2x2.5 | 13,50 |
Cable AVVG 2x4 | 21,60 |
Cable AVVG 2x6 | 32,40 |
Cable AVVG 2x10 | 54,00 |
Cable AVVG 2x16 | 86,40 |
Cable AVVG 3x2.5 | 20,25 |
Cable AVVG 3x4 | 32,40 |
Cable AVVG 3x6 | 48,60 |
Cable AVVG 3x10 | 81,00 |
Cable AVVG 3x16 | 129,60 |
Cable AVVG 3x4+1x2.5 | 39,15 |
Cable AVVG 3x6+1x4 | 59,40 |
Cable AVVG 3x10+1x6 | 97,20 |
Cable AVVG 3x16+1x10 | 156,60 |
Cable AVVG 3x25+1x16 | 47,25 |
Cable AVVG 3x35+1x16 | 326,70 |
Cable AVVG 3x50+1x25 | 472,50 |
Cable AVVG 3x70+1x35 | 661,50 |
Cable AVVG 3x95+1x50 | 904,50 |
Cable AVVG 3x120+1x70 | 1 161,00 |
Cable AVVG 3x150+1x70 | 1 404,00 |
Cable AVVG 3x185+1x95 | 1 755,00 |
Cable AVVG 3x240+1x120 | 2 268,00 |
Cable AVVG 4x2.5 | 27,00 |
Cable AVVG 4x4 | 43,20 |
Cable AVVG 4x6 | 64,80 |
Cable AVVG 4x10 | 108,00 |
Cable AVVG 4x16 | 172,80 |
Cable AVVG 4x25 | 270,00 |
Cable AVVG 4x35 | 378,00 |
Cable AVVG 4x50 | 540,00 |
Cable AVVG 4x70 | 756,00 |
Cable AVVG 4x95 | 1 026,00 |
Cable AVVG 4x120 | 1 296,00 |
Cable AVVG 4x150 | 1 620,00 |
Cable AVVG 4x185 | 1 998,00 |
Cable AVVG 4x240 | 2 592,00 |
Name of wire Copper weight, kg/km
Wire PVS 2x0.5 | 8,90 |
Wire PVS 2x0.75 | 13,35 |
PVS wire 2x1 | 17,80 |
Wire PVS 2x1.5 | 26,70 |
Wire PVS 2x2.5 | 44,50 |
PVS wire 2x4 | 71,20 |
PVS wire 2x6 | 106,80 |
Wire PVS 3x0.5 | 13,35 |
Wire PVS 3x0.75 | 20,03 |
Wire PVS 3x1 | 26,70 |
Wire PVS 3x1.5 | 40,05 |
Wire PVS 3x2.5 | 66,75 |
PVS wire 3x4 | 106,80 |
PVS wire 3x6 | 160,20 |
Wire PVS 4x0.5 | 17,80 |
Wire PVS 4x0.75 | 26,70 |
Wire PVS 4x1 | 35,60 |
Wire PVS 4x1.5 | 53,40 |
Wire PVS 4x2.5 | 89,00 |
PVS wire 4x4 | 142,40 |
PVS wire 4x6 | 213,60 |
Wire PVS 5x0.5 | 22,25 |
Wire PVS 5x0.75 | 33,38 |
Wire PVS 5x1 | 44,50 |
Wire PVS 5x1.5 | 66,75 |
Wire PVS 5x2.5 | 111,25 |
PVS wire 5x4 | 178,00 |
PVS wire 5x6 | 267,00 |
Name of wire Copper weight, kg/km
Wire SHVVP 2x0.5 | 8,90 |
Wire SHVVP 2x0.75 | 13,35 |
Wire SHVVP 2x1 | 17,80 |
Wire SHVVP 2x1.5 | 26,70 |
Wire SHVVP 2x2.5 | 44,50 |
ShVVP wire 2x4 | 71,20 |
Wire SHVVP 2x6 | 106,80 |
Wire SHVVP 3x0.5 | 13,35 |
Wire SHVVP 3x0.75 | 20,03 |
Wire SHVVP 3x1 | 26,70 |
Wire SHVVP 3x1.5 | 40,05 |
Wire SHVVP 3x2.5 | 66,75 |
Wire SHVVP 3x4 | 106,80 |
Wire SHVVP 3x6 | 160,20 |
Name of wire Copper weight, kg/km
Ball screw wire 2x0.2 | 3,56 |
Ball screw wire 2x0.35 | 6,23 |
Ball screw wire 2x0.5 | 8,90 |
Ball screw wire 2x0.75 | 13,35 |
Ball screw wire 2x1.0 | 17,80 |
Ball screw wire 2x1.5 | 26,70 |
Name of wire Weight of aluminum, kg/km
Wire SIP-4 2x10 | 54,00 |
Wire SIP-4 2x16 | 86,40 |
Wire SIP-4 2x25 | 135,00 |
Wire SIP-4 2x35 | 189,00 |
Wire SIP-4 2x50 | 270,00 |
Wire SIP-4 2x70 | 378,00 |
Wire SIP-4 2x95 | 513,00 |
Wire SIP-4 2x120 | 648,00 |
Wire SIP-4 3x10 | 81,00 |
Wire SIP-4 3x16 | 129,60 |
Wire SIP-4 3x25 | 202,50 |
Wire SIP-4 3x35 | 283,50 |
Wire SIP-4 3x50 | 405,00 |
Wire SIP-4 3x70 | 567,00 |
Wire SIP-4 3x95 | 769,50 |
Wire SIP-4 3x120 | 972,00 |
Wire SIP-4 4x10 | 108,00 |
Wire SIP-4 4x16 | 172,80 |
Wire SIP-4 4x25 | 270,00 |
Wire SIP-4 4x35 | 378,00 |
Wire SIP-4 4x50 | 540,00 |
Wire SIP-4 4x70 | 756,00 |
Wire SIP-4 4x95 | 1 026,00 |
Wire SIP-4 4x120 | 1 296,00 |
vtor-dnepr.com.ua
APvBbShv and APvBbShng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
3x4 | cool RE | 16,7 | 400 |
3x6 | 17,8 | 449 | |
3x10 | 19,5 | 526 | |
3x16 | 21,5 | 635 | |
3x25 | 25,2 | 847 | |
3x35 | cool* SE* | 24,2 | 900 |
3x50 | 27 | 1112 | |
3x70 | 30,1 | 1387 | |
3x95 | 33 | 1700 | |
3x120 | 36,3 | 2046 | |
3x150 | 39,5 | 2404 | |
3x185 | 43,4 | 2877 | |
3x240 | 48,3 | 3557 | |
3x4+1x2.5 | cool RE/RE | 17,7 | 440 |
3x6+1x4 | 18,9 | 497 | |
3x10+1x6 | 20,8 | 585 | |
3x16+1x10 | 23 | 714 | |
3x25+1x16 | 26,4 | 936 | |
3x35+1x16 | cool* SE/RE* | 26,9 | 1045 |
3x50+1x25 | 30 | 1285 | |
3x70+1x35 | 33,1 | 1588 | |
3x95+1x50 | 37 | 1959 | |
3x120+1x70 | SE/SE* | 40,1 | 2385 |
3x150+1x50 | SE/RE* | 42,1 | 2646 |
3x150+1x70 | SE/SE* | 42,7 | 2722 |
3x185+1x50 | SE/RE* | 45,4 | 3103 |
3x185+1x95 | SE/SE* | 47 | 3325 |
4x4 | cool RE | 17,7 | 445 |
4x6 | 18,9 | 503 | |
4x10 | 20,8 | 598 | |
4x16 | 23 | 732 | |
4x25 | 27,1 | 990 | |
4x35 | cool* SE* | 27,7 | 1130 |
4x50 | 30,7 | 1374 | |
4x70 | 33,9 | 1715 | |
4x95 | 37,9 | 2158 | |
4x120 | 40,8 | 2547 | |
4x150 | 44,1 | 2996 | |
4x185 | 48,6 | 3637 |
Weight of cables and wires - table
Wire weight A
Name | kg/m |
A-120 | 0.32100 |
A-150 | 0.40600 |
A-16 | 0.04300 |
A-185 | 0.50200 |
A-240 | 0.65500 |
A-25 | 0.06800 |
A-300 | 0.79400 |
A-35 | 0.09400 |
A-50 | 0.13500 |
A-70 | 0.18900 |
A-95 | 0.25200 |
Cable weight AVBBShv
Name | kg/m |
AVBbShv 1Х120 | 0.92200 |
AVBbShv 1Х150 | 1.13500 |
AVBbShv 1Х185 | 1.33000 |
AVBbShv 1Х240 | 1.61300 |
AVBbShv 1Х25 | 0.34700 |
AVBbShv 1Х35 | 0.46400 |
AVBbShv 1Х50 | 0.55600 |
AVBbShv 1Х500 | 2.86200 |
AVBbShv 1Х70 | 0.66000 |
AVBbShv 1Х95 | 0.80400 |
AVBbShv 2Х10 | 0.38000 |
AVBbShv 2Х120 | 1.66700 |
AVBbShv 2Х150 | 2.07500 |
AVBbShv 2Х16 | 0.48900 |
AVBbShv 2Х185 | 2.55300 |
AVBbShv 2Х240 | 3.10500 |
AVBbShv 2Х25 | 0.65500 |
AVBbShv 2Х35 | 0.77900 |
AVBbShv 2Х4 | 0.25600 |
AVBbShv 2Х50 | 0.99100 |
AVBbShv 2Х6 | 0.29200 |
AVBbShv 2Х70 | 1.18800 |
AVBbShv 2Х95 | 1.50200 |
AVBbShv 3Х10 | 0.46300 |
AVBbShv 3Х10+1Х6 | 0.50700 |
AVBbShv 3Х120 | 2.11100 |
AVBbShv 3Х120+1Х50 | 2.27000 |
AVBbShv 3Х120+1Х70 | 2.50000 |
AVBbShv 3Х150 | 2.69500 |
AVBbShv 3Х150+1Х50 | 2.91800 |
AVBbShv 3Х150+1Х70 | 3.04300 |
AVBbShv 3Х150+1Х95 | 3.17900 |
AVBbShv 3Х16 | 0.59200 |
AVBbShv 3Х16+1Х10 | 0.67300 |
AVBbShv 3Х185 | 3.27200 |
AVBbShv 3Х185+1Х50 | 3.50200 |
AVBbShv 3Х185+1Х70 | 3.56300 |
AVBbShv 3Х185+1Х95 | 3.74900 |
AVBbShv 3Х240 | 4.11600 |
AVBbShv 3Х240+1Х120 | 4.61200 |
AVBbShv 3Х240+1Х70 | 4.41600 |
AVBbShv 3Х240+1Х95 | 4.50100 |
AVBbShv 3Х25 | 0.78100 |
AVBbShv 3Х25+1Х16 | 0.90400 |
AVBbShv 3Х35 | 0.94000 |
AVBbShv 3Х35+1Х16 | 1.03600 |
AVBbShv 3Х35+1Х25 | 1.10800 |
AVBbShv 3Х4 | 0.28600 |
AVBbShv 3Х4+1Х2.5 | 0.31900 |
AVBbShv 3Х50 | 1.21500 |
AVBbShv 3Х50+1Х25 | 1.36900 |
AVBbShv 3Х50+1Х35 | 1.42900 |
AVBbShv 3Х6 | 0.33000 |
AVBbShv 3Х6+1Х4 | 0.37200 |
AVBbShv 3Х70 | 1.50900 |
AVBBShv 3Х70+1Х25 | 1.63100 |
AVBbShv 3Х70+1Х35 | 1.66200 |
AVBbShv 3Х70+1Х50 | 1.79300 |
AVBbShv 3Х95 | 1.88600 |
AVBbShv 3Х95+1Х35 | 2.04300 |
AVBbShv 3Х95+1Х50 | 2.12800 |
AVBbShv 3Х95+1Х70 | 2.26600 |
AVBbShv 4Х10 | 0.53700 |
AVBbShv 4Х120 | 2.64000 |
AVBbShv 4Х150 | 3.35300 |
AVBbShv 4Х16 | 0.65300 |
AVBbShv 4Х185 | 4.11200 |
AVBbShv 4Х2.5 | 0.27600 |
AVBbShv 4Х240 | 5.12300 |
AVBbShv 4Х25 | 0.94000 |
AVBbShv 4Х35 | 1.13900 |
AVBbShv 4Х4 | 0.32400 |
AVBbShv 4Х50 | 1.48300 |
AVBbShv 4Х6 | 0.37800 |
AVBbShv 4Х70 | 1.85400 |
AVBbShv 4Х95 | 2.35000 |
AVBbShv 5Х10 | 0.60800 |
AVBbShv 5Х120 | 3.16700 |
AVBbShv 5Х150 | 4.05800 |
AVBbShv 5Х16 | 0.78800 |
AVBbShv 5Х185 | 4.95000 |
AVBbShv 5Х2.5 | 0.30800 |
AVBbShv 5Х240 | 6.32800 |
AVBbShv 5Х25 | 1.08200 |
AVBbShv 5Х35 | 1.30400 |
AVBbShv 5Х4 | 0.36500 |
AVBbShv 5Х50 | 1.72700 |
AVBbShv 5Х6 | 0.44800 |
AVBbShv 5Х70 | 2.19100 |
AVBbShv 5Х95 | 2.81200 |
AVVG cable weight
Name | kg/m |
AVVG 1Х10 | 0.07200 |
AVVG 1Х120 | 0.49100 |
AVVG 1Х150 | 0.62900 |
AVVG 1Х16 | 0.10600 |
AVVG 1Х185 | 0.79600 |
AVVG 1X2.5 | 0.03300 |
AVVG 1Х240 | 1.00800 |
AVVG 1Х25 | 0.15000 |
AVVG 1Х300 | 1.32000 |
AVVG 1Х35 | 0.18600 |
AVVG 1X4 | 0.03900 |
AVVG 1Х400 | 1.60000 |
AVVG 1Х50 | 0.25000 |
AVVG 1X6 | 0.04900 |
AVVG 1Х70 | 0.32100 |
AVVG 1Х95 | 0.41500 |
AVVG 2x10 | 0.12900 |
AVVG 2Х120 | 1.05300 |
AVVG 2Х150 | 1.34800 |
AVVG 2x16 | 0.22000 |
AVVG 2Х185 | 1.68600 |
AVVG 2x2.5 | 0.05300 |
AVVG 2Х240 | 2.14100 |
AVVG 2Х25 | 0.31300 |
AVVG 2Х35 | 0.38900 |
AVVG 2x4 | 0.07100 |
AVVG 2Х50 | 0.54100 |
AVVG 2x6 | 0.08700 |
AVVG 2Х70 | 0.69700 |
AVVG 2Х95 | 0.89600 |
AVVG 3x10 | 0.21500 |
AVVG 3Х10+1Х6 | 0.23000 |
AVVG 3Х120 | 1.45700 |
AVVG 3Х120+1Х70 | 1.73500 |
AVVG 3Х150 | 1.87500 |
AVVG 3Х150+1Х95 | 2.27100 |
AVVG 3x16 | 0.28900 |
AVVG 3Х16+1Х10 | 0.32400 |
AVVG 3Х185 | 2.35900 |
AVVG 3Х185+1Х95 | 2.70400 |
AVVG 3x2.5 | 0.08800 |
AVVG 3Х240 | 3.00100 |
AVVG 3Х240+1Х120 | 3.43000 |
AVVG 3Х25 | 0.41900 |
AVVG 3Х25+1Х16 | 0.49200 |
AVVG 3Х35 | 0.52700 |
AVVG 3Х35+1Х16 | 0.70000 |
AVVG 3x4 | 0.11600 |
AVVG 3Х4+1Х2.5 | 0.12600 |
AVVG 3Х50 | 0.73700 |
AVVG 3Х50+1Х25 | 0.84800 |
AVVG 3x6 | 0.14100 |
AVVG 3Х6+1Х4 | 0.15900 |
AVVG 3Х70 | 0.95500 |
AVVG 3Х70+1Х35 | 1.09800 |
AVVG 3Х95 | 1.27100 |
AVVG 3Х95+1Х35 | 1.40900 |
AVVG 3Х95+1Х50 | 1.47400 |
AVVG 4x10 | 0.26700 |
AVVG 4x120 | 2.11600 |
AVVG 4x150 | 2.52600 |
AVVG 4x16 | 0.37900 |
AVVG 4x185 | 3.08500 |
AVVG 4x2.5 | 0.10900 |
AVVG 4x240 | 3.96500 |
AVVG 4x25 | 3.55300 |
AVVG 4x35 | 0.71600 |
AVVG 4x4 | 0.14800 |
AVVG 4x50 | 0.97100 |
AVVG 4x6 | 0.18100 |
AVVG 4x70 | 1.33100 |
AVVG 4x95 | 1.76300 |
AVVG 5x10 | 0.62000 |
AVVG 5Х120 | 2.33800 |
AVVG 5Х150 | 3.01700 |
AVVG 5x16 | 0.79000 |
AVVG 5Х185 | 3.76200 |
AVVG 5x2.5 | 0.31000 |
AVVG 5Х240 | 4.81000 |
AVVG 5x25 | 1.20000 |
AVVG 5x35 | 1.51000 |
AVVG 5x4 | 0.42000 |
AVVG 5x50 | 1.67000 |
AVVG 5x6 | 0.49000 |
AVVG 5Х70 | 1.53800 |
AVVG 5Х95 | 2.03400 |
AAShv, AAShng, TSAAShv, TSAAShng
Voltage, U (Uo/U) kV | Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1 (1/1) | 3×35 | cool* SE* | 22,6 | 772 |
3×50 | 24,6 | 938 | ||
3×70 | 27,9 | 1224 | ||
3×95 | 30,8 | 1525 | ||
3×120 | 34 | 1860 | ||
3×150 | 36,8 | 2224 | ||
3×185 | 40,3 | 2679 | ||
3×240 | 44,6 | 3316 | ||
3×35+1×16 | cool* SE/RE* | 24,5 | 881 | |
3×50+1×25 | 27,2 | 1117 | ||
3×70+1×35 | 30,6 | 1423 | ||
3×95+1×50 | 34 | 1789 | ||
3×120+1×70 | 38 | 2238 | ||
3×150+1×70 | 40,1 | 2544 | ||
4×35 | cool* SE* | 26,4 | 1017 | |
4×50 | 29 | 1250 | ||
4×70 | 32,1 | 1571 | ||
4×95 | 36,4 | 2038 | ||
4×120 | 40,2 | 2487 | ||
4×150 | 43,1 | 2903 | ||
4×185 | 47,9 | 3591 | ||
4×240 | 52,9 | 4464 | ||
6 (6/6) | 3×35 | cool* SE* | 29,4 | 1200 |
3×50 | 31,3 | 1390 | ||
3×70 | 34,1 | 1675 | ||
3×95 | 37,4 | 2062 | ||
3×120 | 40 | 2386 | ||
3×150 | 42,3 | 2727 | ||
3×185 | 45,3 | 3189 | ||
3×240 | 50,1 | 4021 | ||
10 (10/10) | 3×35 | cool* SE* | 33,3 | 1475 |
3×50 | 35,6 | 1704 | ||
3×70 | 38,4 | 2032 | ||
3×95 | 41,4 | 2410 | ||
3×120 | 43,9 | 2757 | ||
3×150 | 46,8 | 3246 | ||
3×185 | 50 | 3756 | ||
3×240 | 54 | 4462 |
Copper weight table in KG cable
Name of cable Weight of copper, kg/km Cable KG 1 x 2.522.25 Cable KG 1 x 435.60 Cable KG 1 x 653.40 Cable KG 1 x 1089.00 Cable KG 1 x 16142.40 Cable KG 1 x 25222.50 Cable KG 1 x 35311.50 Cable KG 1 x 50445.00KG cable 1 x 70623.00KG cable 1 x 95845.50KG cable 1 x 1201 068.00KG cable 1 x 1501 335.00KG cable 1 x 1851 646.50KG cable 1 x 2402 136.00KG cable 1 x 3002 670 ,00KG cable 1 x 4003 560.00KG cable 2 x 0.7513.35KG cable 2 x 1.017.80KG cable 2 x 1.526.70KG cable 2 x 2.544.50KG cable 2 x 471.20KG cable 2 x 6106.80KG cable 2 x 10178, 00KG cable 2 x 16284.80KG cable 2 x 25445.00KG cable 2 x 35623.00KG cable 2 x 50890.00KG cable 2 x 701,246.00KG cable 2 x 951,691.00KG cable 2 x 1202 136.00KG cable KG 2 x 1502 670.00 Cable KG 3 x 0.7520.03 Cable KG 3 x 1.026.70 Cable KG 3 x 1.540.05 Cable KG 3 x 2.566.75 Cable KG 3 x 4106.80 Cable KG 3 x 6160.20 Cable KG 3 x 10267.00 Cable KG 3 x 16427, 20KG cable 3 x 25667.50KG cable 3 x 35934.50KG cable 3 x 501 335.00KG cable 3 x 701 869.00KG cable 3 x 952 536.50KG cable 3 x 1203 204.00KG cable 3 x 1504 005 .00 Cable KG 4 x 1.035.60KG cable 4 x 1.553.40KG cable 4 x 2.589.00KG cable 4 x 4142.40KG cable 4 x 6213.60KG cable 4 x 10356.00KG cable 4 x 16569.60KG cable 4 x 25890.00KG cable 4 x 351 246.00 Cable KG 4 x 501 780.00 Cable KG 4 x 702 492.00 Cable KG 4 x 953 382.00 Cable KG 4 x 1204 272.00 Cable KG 4 x 1505 340.00 Cable KG 5 x 1.044.50 Cable KG 5 x 1 .566.75 Cable KG 5 x 2.5111.25 Cable KG 5 x 4178.00 Cable KG 5 x 6267.00 Cable KG 5 x 10445.00 Cable KG 5 x 16712.00 Cable KG 5 x 251 112.50 Cable KG 5 x 351 557.50 Cable KG 5 x 502 225, 00KG cable 5 x 703 115.00KG cable 5 x 954 227.50KG cable 5 x 1205 340.00KG cable 2 x 0.75 + 1 x 0.7520.03KG cable 2 x 1 + 1 x 126.70KG cable 2 x 1.5 + 1 x 1.54 0 .05KG cable 2 x 2.5 + 1 x 1.557.85KG cable 2 x 4 + 1 x 2.593.45KG cable 2 x 6 + 1 x 4142.40KG cable 2 x 10 + 1 x 6231.40KG cable 2 x 16 + 1 x 6338 ,20KG cable 2 x 25 + 1 x 10534.00KG cable 2 x 35 + 1 x 10712.00KG cable 2 x 50 + 1 x 161,032.40KG cable 2 x 70 + 1 x 251 468.50KG cable 2 x 70 + 1 x 351,557.50KG cable 2 x 95 + 1 x 352,002.50KG cable 2 x 120 + 1 x 352,447.50KG cable 2 x 150 + 1 x 503 115.00KG cable 3 x 2.5 + 1 x 1.580.10KG cable 3 x 4 + 1 x 2.5129.05 Cable KG 3 x 6 + 1 x 4195.80 Cable KG 3 x 10 + 1 x 6320.40 Cable KG 3 x 16 + 1 x 6480.60 Cable KG 3 x 25 + 1 x 10756.50 Cable KG 3 x 35 + 1 x 101,023.50KG cable 3 x 50 + 1 x 161,477.40KG cable 3 x 70 + 1 x 252,091.50KG cable 3 x 95 + 1 x 352,848.00KG cable 3 x 120 + 1 x 353 515.50 Cable KG 3 x 150 + 1 x 504 450.00AABl, AABlG, AAB2l, AAB2lShv, AABnlG, TsAABL, TsAABLG, TsAAB2l, TsAABnlG
Voltage, U (Uo/U) kV | Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1 (1/1) | 3×35 | cool* SE* | 28,2 | 1330 |
3×50 | 30,3 | 1543 | ||
3×70 | 33,1 | 1870 | ||
3×95 | 36,1 | 2235 | ||
3×120 | 39,2 | 2632 | ||
3×150 | 41,7 | 3045 | ||
3×185 | 45,2 | 3586 | ||
3×240 | 49,4 | 4314 | ||
3×35+1×16 | cool* SE/RE* | 30,1 | 1483 | |
3×50+1×25 | 32,9 | 1784 | ||
3×70+1×35 | 35,8 | 2128 | ||
3×95+1×50 | 39,2 | 2569 | ||
3×120+1×70 | 42,8 | 3059 | ||
3×150+1×70 | 45 | 3447 | ||
4×35 | cool* SE* | 31,6 | 1627 | |
4×50 | 34,2 | 1899 | ||
4×70 | 37,4 | 2290 | ||
4×95 | 41,2 | 2809 | ||
4×120 | 45 | 3338 | ||
4×150 | 48 | 3839 | ||
4×185 | 52,3 | 4577 | ||
4×240 | 57,3 | 5553 | ||
6 (6/6) | 3×35 | cool* SE* | 34,6 | 1879 |
3×50 | 36,6 | 2111 | ||
3×70 | 39,3 | 2456 | ||
3×95 | 42,3 | 2874 | ||
3×120 | 44,8 | 3250 | ||
3×150 | 47,2 | 3666 | ||
3×185 | 50,2 | 4193 | ||
3×240 | 54,5 | 5073 | ||
10 (10/10) | 3×35 | cool* SE* | 38,5 | 2238 |
3×50 | 40,4 | 2477 | ||
3×70 | 43,3 | 2864 | ||
3×95 | 46,2 | 3306 | ||
3×120 | 48,7 | 3705 | ||
3×150 | 51,2 | 4230 | ||
3×185 | 54,4 | 4805 | ||
3×240 | 58,4 | 5594 |
Selection by table
Knowing the diameter of the wire, you can determine its cross-section using a ready-made dependence table. The table for calculating the cable cross-section by core diameter looks like this:
Conductor diameter, mm | Conductor cross-section, mm2 |
0.8 | 0.5 |
1 | 0.75 |
1.1 | 1 |
1.2 | 1.2 |
1.4 | 1.5 |
1.6 | 2 |
1.8 | 2.5 |
2 | 3 |
2.3 | 4 |
2.5 | 5 |
2.8 | 6 |
3.2 | 8 |
3.6 | 10 |
4.5 | 16 |
When the cross-section is known, it is possible to determine the permissible power and current values for copper or aluminum wire. In this way, it will be possible to find out what load parameters the current-carrying core is designed for. To do this, you will need a table of the dependence of the cross section on the maximum current and power.
In the air (trays, boxes, voids, channels) | Section, sq. mm | In the ground | |||||||||
Copper conductors | Aluminum conductors | Copper conductors | Aluminum conductors | ||||||||
Current. A | power, kWt | Tone. A | power, kWt | Current, A | power, kWt | Current. A | Power, kWt | ||||
220 (V) | 380(V) | 220(V) | 380(V) | 220(V) | 380(V) | 220(V) | |||||
19 | 4.1 | 17.5 | 1,5 | 77 | 5.9 | 17.7 | |||||
35 | 5.5 | 16.4 | 19 | 4.1 | 17.5 | 7,5 | 38 | 8.3 | 75 | 79 | 6.3 |
35 | 7.7 | 73 | 77 | 5.9 | 17.7 | 4 | 49 | 10.7 | 33.S | 38 | 8.4 |
*2 | 9.7 | 77.6 | 37 | 7 | 71 | 6 | 60 | 13.3 | 39.5 | 46 | 10.1 |
55 | 17.1 | 36.7 | 47 | 9.7 | 77.6 | 10 | 90 | 19.8 | S9.7 | 70 | 15.4 |
75 | 16.5 | 49.3 | 60 | 13.7 | 39.5 | 16 | 115 | 753 | 75.7 | 90 | 19,8 |
95 | 70,9 | 67.5 | 75 | 16.5 | 49.3 | 75 | 150 | 33 | 98.7 | 115 | 75.3 |
170 | 76.4 | 78.9 | 90 | 19.8 | 59.7 | 35 | 180 | 39.6 | 118.5 | 140 | 30.8 |
145 | 31.9 | 95.4 | 110 | 74.7 | 77.4 | 50 | 775 | 493 | 148 | 175 | 38.5 |
ISO | 39.6 | 118.4 | 140 | 30.8 | 97.1 | 70 | 775 | 60.5 | 181 | 710 | 46.7 |
770 | 48.4 | 144.8 | 170 | 37.4 | 111.9 | 95 | 310 | 77.6 | 717.7 | 755 | 56.1 |
760 | 57,7 | 171.1 | 700 | 44 | 131,6 | 170 | 385 | 84.7 | 753.4 | 795 | 6S |
305 | 67.1 | 700.7 | 735 | 51.7 | 154.6 | 150 | 435 | 95.7 | 786.3 | 335 | 73.7 |
350 | 77 | 730.3 | 770 | 59.4 | 177.7 | 185 | 500 | 110 | 379 | 385 | 84.7 |
Converting watts to kilowatts
In order to correctly use the table of wire cross-section versus power, it is important to correctly convert watts to kilowatts.
1 kilowatt = 1000 watts. Accordingly, to obtain the value in kilowatts, the power in watts must be divided by 1000. For example, 4300 W = 4.3 kW.
PvBbShv and PvBbShng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
3×4 | cool RE | 16,7 | 471 |
3×6 | 17,7 | 554 | |
3×10 | 19,5 | 708 | |
3×16 | 21,4 | 924 | |
3x25 | 25,1 | 1301 | |
3x35 | cool* SE* | 24,2 | 1532 |
3x50 | 27 | 2075 | |
3x70 | S.M. | 31,9 | 2865 |
3x95 | 35,6 | 3606 | |
3x120 | 38,6 | 4473 | |
3×4+1×2,5 | cool RE/RE | 17,6 | 503 |
3×6+1×4 | 18,8 | 626 | |
3×10+1×6 | 20,7 | 803 | |
3×16+1×10 | 23 | 1125 | |
3×25+1×16 | 26,3 | 1425 | |
3×35+1×16 | cool* SE/RE* | 25,8 | 1739 |
3×50+1×25 | 28,3 | 2237 | |
4×4 | cool RE | 17,6 | 540 |
4×6 | 18,8 | 644 | |
4×10 | 20,7 | 840 | |
4×16 | 23 | 1117 | |
4x25 | 27 | 1618 | |
4x35 | cool* SE* | 27,7 | 1952 |
4x50 | 29,3 | 2471 | |
4x70 | S.M. | 32,6 | 3339 |
4x95 | 36,3 | 4362 | |
4x120 | 39,5 | 5369 |
Calculator for calculating cable cross-section by power and current
The algorithm for selecting the wiring cross-section based on load power includes the following steps:
- of the total power ( Ptotal ) of all electrical appliances connected using a conductor ( P1 - Pn) using the formula below :
Ptotal= P1+ P2+ P3+ Pn.
At the same time, for consumers such as electric motors and transformers, the reactive power given in the passport is converted into active power according to the following formula:
P = Q / cosφ.
- Search for values of simultaneity coefficients (K) and margin (J). In practical calculations, the K value is used equal to 0.8-0.85, J – 2.0.
- Calculation of the total active power ( P a ) taking into account correction factors K and J using the following formula:
Pa = Ptot• K• J.
- Select a conductor with the optimal cross-sectional area using the reference table (Fig. below).
Example No. 1
It is necessary to connect a group of electrical appliances with a total power of 5000 W to the three-phase input panel using a separate cable line laid in the wall.
On a note. The power of any electrical appliance can be found in its technical data sheet, instruction manual or on a special plate attached to its body.
The total active power of this group of devices, taking into account the simultaneity and reserve factors, will be equal to:
Pa = Ptot• K• J = 5000 • 0.8•2= 8,000 W or 8.0 kW.
For this power value, a copper conductor with a core cross-section of 2.5 mm square will be optimal.
Calculating the cross-section of a line based on the current supplied to it through a cable calculator has a procedure similar to the previous one:
- For each consumer, the current consumption is calculated using the formula I=P/U;
- The current values calculated for each device are summed up and multiplied by coefficients K and J;
- Using the reference table (Fig. below), a conductor is selected that has a cross-section capable of passing the design current.
Selecting the conductor cross-section based on the power and current of electrical appliances connected with it
Example No. 2
The total current strength of devices connected to a single-phase network is 15 A. Taking into account the coefficients K and J, it will be equal to 18 A. For laying such closed wiring and connecting devices with this total current value, a copper wire with a cross-section of 4.1 mm square is suitable.
PvBVng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
3x10 | RE | 22,9 | 1050 |
3x16 | 24,9 | 1310 | |
3x25 | R.M. | 29,9 | 1820 |
3x35 | 32,4 | 2180 | |
3x50 | 36 | 2780 | |
3x70 | 39,5 | 3570 | |
3x95 | 45,4 | 4690 | |
3x120 | 49,2 | 5600 | |
4x10 | RE | 24,5 | 1220 |
3x16+1x10 | RE/RE | 26,7 | 1490 |
3x25+1x16 | RM/RE | 31,4 | 2060 |
3x35+1x16 | 33,2 | 2390 | |
3x50+1x25 | RM/RM | 37,8 | 3140 |
3x70+1x35 | 42,6 | 4130 | |
3x95+1x50 | 47,9 | 5280 | |
3x120+1x70 | 51,9 | 6420 |
Weight of copper in 1 meter of cable - table
Copper weights in VVG cable
Name | g/m |
Cable VVG 2x1.5 | 21.36 |
Cable VVG 2x2.5 | 44.50 |
Cable VVG 2x4 | 71.20 |
Cable VVG 2x6 | 106.80 |
Cable VVG 2x10 | 178.00 |
Cable VVG 3x1.5 | 40.05 |
Cable BBГ 3x2.5 | 66.75 |
Cable VVG 3x4 | 106.80 |
Cable VVG 3x6 | 160.20 |
Cable VVG 3x10 | 267.00 |
Cable VVG 4x1.5 | 53.40 |
Cable VVG 4x2.5 | 89.00 |
Cable VVG 4x4 | 142.40 |
Cable VVG 4x6 | 213.60 |
Cable VVG 4x10 | 356.00 |
Cable VVG 4x16 | 569.60 |
Cable VVG 4x25 | 890.00 |
Cable VVG 4x35 | 1246.00 |
Cable VVG 4x50 | 1780.00 |
Cable VVG 5x1.5 | 66.75 |
Cable VVG 5x2.5 | 111.25 |
Cable VVG 5x4 | 178.00 |
Cable VVG 5x6 | 267.00 |
Cable VVG 5x10 | 445.00 |
Cable VVG 5x16 | 712.00 |
Cable VVG 5x25 | 1112.50 |
Cable VVG 5x35 | 1557.50 |
Cable VVG 5x50 | 2225.00 |
Copper weights in KG cable
Name | g/m |
Cable KG 1×2.5 | 22.25 |
Cable KG 1×4 | 35.60 |
Cable KG 1×6 | 53.40 |
Cable KG 1×10 | 89.00 |
Cable KG 1×16 | 142.40 |
Cable KG 1×25 | 222.50 |
Cable KG 1×35 | 311.50 |
Cable KG 1×50 | 445.00 |
Cable KG 1×70 | 623.00 |
Cable KG 1×95 | 845.50 |
Cable KG 1×120 | 1068.00 |
Cable KG 1×150 | 1335.00 |
Cable KG 1×185 | 1646.50 |
Cable KG 1×240 | 2136.00 |
Cable KG 1×300 | 2670.00 |
Cable KG 1×400 | 3560.00 |
Cable KG 2×0.75 | 13.35 |
Cable KG 2×1.0 | 17.80 |
Cable KG 2×1.5 | 26.70 |
Cable KG 2×2.5 | 44.50 |
Cable KG 2×4 | 71.20 |
Cable KG 2×6 | 106.80 |
Cable KG 2×10 | 178.00 |
Cable KG 2×16 | 284.80 |
Cable KG 2×25 | 445.00 |
Cable KG 2×35 | 623.00 |
Cable KG 2×50 | 890.00 |
Cable KG 2×70 | 1246.00 |
Cable KG 2×95 | 1691.00 |
Cable KG 2×120 | 2136.00 |
Cable KG 2×150 | 2670.00 |
Cable KG 3×0.75 | 20.03 |
Cable KG 3×1.0 | 26.70 |
Cable KG 3×1.5 | 40.05 |
Cable KG 3×2.5 | 66.75 |
Cable KG 3×4 | 106.80 |
Cable KG 3×6 | 160.20 |
Cable KG 3×10 | 267.00 |
Cable KG 3×16 | 427.20 |
Cable KG 3×25 | 667.50 |
Cable KG 3×35 | 934.50 |
Cable KG 3×50 | 1335.00 |
Cable KG 3×70 | 1869.00 |
Cable KG 3×95 | 2536.50 |
Cable KG 3×120 | 3204.00 |
Cable KG 3×150 | 4005.00 |
Cable KG 4×1.0 | 35.60 |
Cable KG 4×1.5 | 53.40 |
Cable KG 4×2.5 | 89.00 |
Cable KG 4×4 | 142.40 |
Cable KG 4×6 | 213.60 |
Cable KG 4×10 | 356.00 |
Cable KG 4×16 | 569.60 |
Cable KG 4×25 | 890.00 |
Cable KG 4×35 | 1246.00 |
Cable KG 4×50 | 1780.00 |
Cable KG 4×70 | 2492.00 |
Cable KG 4×95 | 3382.00 |
Cable KG 4×120 | 4272.00 |
Cable KG 4×150 | 5340.00 |
Cable KG 5×1.0 | 44.50 |
Cable KG 5×1.5 | 66.75 |
Cable KG 5×2.5 | 111.25 |
Cable KG 5×4 | 178.00 |
Cable KG 5×6 | 267.00 |
Cable KG 5×10 | 445.00 |
Cable KG 5×16 | 712.00 |
Cable KG 5×25 | 1112.50 |
Cable KG 5×35 | 1557.50 |
Cable KG 5×50 | 2225.00 |
Cable KG 5×70 | 3115.00 |
Cable KG 5×95 | 4227.50 |
Cable KG 5×120 | 5340.00 |
Cable KG 2×0.75+1×0.75 | 20.03 |
Cable KG 2×1+1×1 | 26.70 |
Cable KG 2×1.5+1×1.5 | 40.05 |
Cable KG 2×2.5+1×1.5 | 57.85 |
Cable KG 2×4+1×2.5 | 93.45 |
Cable KG 2×6+1×4 | 142.40 |
Cable KG 2×10+1×6 | 231.40 |
Cable KG 2×16+1×6 | 338.20 |
Cable KG 2×25+1×10 | 534.00 |
Cable KG 2×35+1×10 | 712.00 |
Cable KG 2×50+1×16 | 1032.40 |
Cable KG 2×70+1×25 | 1468.50 |
Cable KG 2×70+1×35 | 1557.50 |
Cable KG 2×95+1×35 | 2002.50 |
Cable KG 2×120+1×35 | 2447.50 |
Cable KG 2×150+1×50 | 3115.00 |
Cable KG 3×2.5+1×1.5 | 80.10 |
Cable KG 3×4+1×2.5 | 129.05 |
Cable KG 3×6+1×4 | 195.80 |
Cable KG 3×10+1×6 | 320.40 |
Cable KG 3×16+1×6 | 480.60 |
Cable KG 3×25+1×10 | 756.50 |
Cable KG 3×35+1×10 | 1023.50 |
Cable KG 3×50+1×16 | 1477.40 |
Cable KG 3×70+1×25 | 2091.50 |
Cable KG 3×95+1×35 | 2848.00 |
Cable KG 3×120+1×35 | 3515.50 |
Cable KG 3×150+1×50 | 4450.00 |
Copper weight in PVA wire
Name | Copper weight. g/m |
Wire PVS 2x0.5 | 8.90 |
Wire PVS 2x0.75 | 13.35 |
PVS wire 2x1 | 17.80 |
Wire PVS 2x1.5 | 26.70 |
Wire PVS 2x2.5 | 44.50 |
PVS wire 2x4 | 71.20 |
PVS wire 2x6 | 106.80 |
Wire PVS 3x0.5 | 13.35 |
Wire PVS 3x0.75 | 20.03 |
Wire PVS 3x1 | 26.70 |
Wire PVS 3x1.5 | 40.05 |
Wire PVS 3x2.5 | 66.75 |
PVS wire 3x4 | 106.80 |
PVS wire 3x6 | 160.20 |
Wire PVS 4x0.5 | 17.80 |
Wire PVS 4x0.75 | 26.70 |
Wire PVS 4x1 | 35.60 |
Wire PVS 4x1.5 | 53.40 |
Wire PVS 4x2.5 | 89.00 |
PVS wire 4x4 | 142.40 |
PVS wire 4x6 | 213.60 |
Wire PVS 5x0.5 | 22.25 |
Wire PVS 5x0.75 | 33.38 |
Wire PVS 5x1 | 44.50 |
Wire PVS 5x1.5 | 66.75 |
Wire PVS 5x2.5 | 111.25 |
PVS wire 5x4 | 178.00 |
PVS wire 5x6 | 267.00 |
PvVG and PvVGng
Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
3x2.5 | cool RE | 12,8 | 215 |
3x4 | 13,8 | 275 | |
3x6 | 14,9 | 343 | |
3x10 | 16,6 | 479 | |
3x16 | 19 | 684 | |
3x25 | 22,3 | 992 | |
3x35 | cool* SE* | 21,8 | 1254 |
3x50 | 24,5 | 1652 | |
3x70 | S.M. | 29,5 | 2379 |
3x95 | 32,7 | 3148 | |
3x120 | 36,1 | 4005 | |
3x4+1x2.5 | cool RE/RE | 14,8 | 292 |
3x6+1x4 | 15,9 | 399 | |
3x10+1x6 | 17,9 | 556 | |
3x16+1x10 | 20,5 | 864 | |
3x25+1x16 | 23,8 | 1120 | |
3x35+1x16 | cool* SE/RE* | 22,9 | 1420 |
3x50+1x25 | 25,8 | 1906 | |
4x2.5 | cool* RE* | 13,6 | 237 |
4x4 | 14,8 | 329 | |
4x6 | 15,9 | 417 | |
4x10 | 17,9 | 593 | |
4x16 | 20,5 | 856 | |
4x25 | 24,6 | 1302 | |
4x35 | 24,2 | 1640 | |
4x50 | 26,8 | 2125 |
Table of correspondence of wire diameters and their cross-sectional area
You don’t always want or have the opportunity to make payments in a store or on the market. In order not to waste time on calculations or to avoid making mistakes, you can use the table for the correspondence of diameters and cross-sections of wires, which contains the most common (normative) sizes. You can rewrite it, print it and take it with you.
Conductor diameter | Conductor cross-section |
0.8 mm | 0.5 mm2 |
0.98 mm | 0.75 mm2 |
1.13 mm | 1 mm2 |
1.38 mm | 1.5 mm2 |
1.6 mm | 2.0 mm2 |
1.78 mm | 2.5 mm2 |
2.26 mm | 4.0 mm2 |
2.76 mm | 6.0 mm2 |
3.57 mm | 10.0 mm2 |
4.51 mm | 16.0 mm2 |
5.64 mm | 25.0 mm2 |
How to work with a table
To check, measure the diameter using any of the described methods, then check the table. It states that with such a cross-section of four square millimeters, the wire size should be 2.26 mm. If your measurements are the same or very close (there is a measurement error, since the devices are not ideal), everything is fine, you can buy this cable.
Stated sizes do not always correspond to real ones
But much more often, the actual diameter of the conductors is much smaller than the declared one. Then you have two options: look for a wire from another manufacturer or take a larger cross-section. Of course, you will have to overpay for it, but the first option will require a fairly long period of time, and it is not a fact that you will be able to find a cable that complies with GOST.
Useful tips Connection diagrams Principles of operation of devices Main concepts Meters from Energomer Precautions Incandescent lamps Video instructions for the master Testing with a multimeter
SB, SBl, SB2l, SBG, SB2lG, TsSB, TsSBl, TsSB2l, TsSBG
Voltage, U (Uo/U) kV | Number of cores, nominal cross-section, mm2 | Core cross-sectional shape | Cable outer diameter, mm | Cable weight, kg/km |
1 (1/1) | 3×35 | cool* SE* | 28,3 | 2438 |
3x50 | 30,3 | 2945 | ||
3x70 | S.M. | 34,9 | 4005 | |
3x95 | 38,3 | 5086 | ||
3x120 | 41,6 | 6133 | ||
3x150 | 44 | 7500 | ||
3x50+1x25 | SE/RE* | 32,4 | 3389 | |
3x70+1x35 | SM/SE* | 37,6 | 4693 | |
3x95+1x50 | SM/SE* | 41,7 | 6001 | |
3x120+1x70 | SM/SM | 46,3 | 7384 | |
3x150+1x70 | SM/SM | 48 | 8346 | |
6 (6/6) | 3×35 | cool* SE* | 34,6 | 3212 |
3x50 | 36,6 | 3779 | ||
3x70 | S.M. | 41,2 | 4963 | |
3x95 | 44,5 | 6057 | ||
3x120 | 47,1 | 7064 | ||
3x150 | 49,4 | 8274 | ||
10 (10/10) | 3×35 | cool* SE* | 38,6 | 3782 |
3x50 | 40,5 | 4309 | ||
3x70 | S.M. | 45,1 | 5547 | |
3x95 | 48,5 | 6732 | ||
3x120 | 51,1 | 7774 | ||
3x150 | 53,3 | 9057 |
We are looking for the wire cross-section by diameter: formula
The wires in the cable have a circular cross-section. Therefore, when calculating, we use the formula for the area of a circle. It can be found using radius (half the measured diameter) or diameter (see formula).
For example, let's calculate the cross-sectional area of the conductor (wire) based on the size calculated earlier: 0.68 mm. Let's use the radius formula first. First we find the radius: divide the diameter by two. 0.68 mm / 2 = 0.34 mm. Next, we substitute this figure into the formula
You need to calculate it like this: first we square 0.34, then multiply the resulting value by 3.14. We obtained a cross-section of this wire of 0.36 square millimeters. This is a very thin wire that is not used in power networks.
Let's calculate the cable cross-section by diameter using the second part of the formula. It should be exactly the same value. The difference may be in thousandths due to different rounding.
S = π/4 * D 2 = 3.14/4 * 0.68 2 = 0.785 * 0.4624 = 0.36 mm 2
In this case, we divide the number 3.14 by four, then we square the diameter and multiply the two resulting numbers. We get a similar value, as it should be. Now you know how to find out the cable cross-section by diameter. Whichever of these formulas is more convenient for you, use that one. No difference.
Conductor diameter | Conductor cross-section |
0.8 mm | 0.5 mm2 |
0.98 mm | 0.75 mm2 |
1.13 mm | 1 mm2 |
1.38 mm | 1.5 mm2 |
1.6 mm | 2.0 mm2 |
1.78 mm | 2.5 mm2 |
2.26 mm | 4.0 mm2 |
2.76 mm | 6.0 mm2 |
3.57 mm | 10.0 mm2 |
4.51 mm | 16.0 mm2 |
5.64 mm | 25.0 mm2 |
Expert opinion
Viktor Pavlovich Strebizh, lighting and electrical expert
Any questions ask me, I will help!
They are distinguished by such main properties as low electrical and transition resistance at the contacts, fairly high elasticity and strength, as well as ease of soldering and welding. If there is something you don’t understand, write to me!
Technical characteristics and service life
- VBBShvng cables are operated at ambient temperatures from minus 50 °C to plus 50 °C.
- The cables are operational at relative humidity up to 98% at temperatures up to 35 °C, according to GOST 15510-69.
- The electrical resistance of current-carrying conductors to direct current must comply with GOST 22483.
- Electrical insulation resistance of cores, 1 km length at a temperature of 20 °C, not less than:
- 12 MOhm, for conductors with a nominal cross-section of 1.5 and 2.5 mm2;
- 10 MOhm, for conductors with a nominal cross-section of 4 mm2;
- 9 MOhm, for conductors with a nominal cross-section of 6 mm2;
- 7 MOhm, for conductors with a nominal cross-section of 10 – 240 mm2.
- Test alternating voltage with a frequency of 50 Hz for VBBShvng cables:
Rated voltage, kV Test voltage, kV 0,66 3 1 3,5 - The warranty period for cables is 5 years from the date of commissioning.
- The service life of the VBBShvng cable is at least 30 years.
The tables below show the weight of 1 meter and the outer diameter of the VBShvng(A) cable at 0.66 kV, 1 kV. The data is indicative and may differ from the actual parameters, since the VBBShvng cable from different manufacturers may have its own design features that do not contradict GOST.
Table of outer diameter VBShvng(A) Table of weight VBShvng(A)
For more detailed information on the availability of the cable, its manufacturer and weight and dimensions, please contact the company manager. Send a request online or call the phone number
Weight table VBBShvng
Sections VBShng(A) | Weight 1m VBShng(A) 0.66 kV in kg | Weight 1m VBShng(A) 1 kV in kg |
1×25 | 0.553 | 0.562 |
1×35 | 0.679 | 0.688 |
1×50 | 0.841 | 0.843 |
1×70 | — | 1.081 |
1×95 | — | 1.384 |
1×120 | — | 1.647 |
1×150 | — | 2.045 |
1×185 | — | 2.462 |
1×240 | — | 3.751 |
1×300 | — | 3.843 |
2×2,5 | 0.305 | 0.324 |
2×4 | 0.376 | 0.406 |
2×6 | 0.438 | 0.47 |
2×10 | 0.58 | 0.583 |
2×16 | 0.779 | 0.792 |
2×25 | 1.019 | 1.033 |
2×35 | 1.496 | 1.519 |
2×50 | 1.898 | 1.923 |
3×2,5 | 0.345 | 0.368 |
3×4 | 0.435 | 0.471 |
3×6 | 0.518 | 0.556 |
3×10 | 0.698 | 0.712 |
3×16 | 0.975 | 0.992 |
3×25 | 1.336 | 1.355 |
3×35 | 1.84 | 1.865 |
3×50 | 2.372 | 2.399 |
3×2,5+1×1,5 | 0.385 | 0.412 |
3×4+1×2,5 | 0.485 | 0.519 |
3×6+1×4 | 0.591 | 0.629 |
3×10+1×6 | 0.788 | 0.817 |
3×16+1×10 | 1.105 | 1.129 |
3×25+1×16 | 1.562 | 1.584 |
3×35+1×16 | 2.038 | 2.065 |
3×50+1×25 | 2.666 | 2.694 |
3×70+1×35 | — | 3.32 |
3×95+1×50 | — | 4.332 |
3×120+1×70 | — | 5.316 |
3×150+1×70 | — | 6.257 |
3×185+1×95 | — | 7.651 |
3×240+1×120 | — | 9.761 |
4×2,5 | 0.394 | 0.421 |
4×4 | 0.505 | 0.549 |
4×6 | 0.609 | 0.648 |
4×10 | 0.839 | 0.857 |
4×16 | 1.216 | 1.237 |
4×25 | 1.661 | 1.676 |
4×35 | 2.266 | 2.294 |
4×50 | 2.943 | 2.947 |
4×70 | — | 3.686 |
4×95 | — | 4.827 |
4×120 | — | 5.846 |
4×150 | — | 7.068 |
4×185 | — | 8.552 |
4×240 | — | 11 |
5×2,5 | 0.44 | 0.481 |
5×4 | 0.569 | 0.631 |
5×6 | 0.706 | 0.76 |
5×10 | 0.993 | 1.018 |
5×16 | 1.454 | 1.479 |
5×25 | 1.991 | 2.025 |
5×35 | 2.72 | 2.763 |
5×50 | 3.545 | 3.594 |
5×70 | — | 4.541 |
5×95 | — | 5.965 |
5×120 | — | 7.206 |
5×150 | — | 8.821 |
5×185 | — | 10.658 |
5×240 | 13.346 |
Table of external diameter VBShvng in mm
Section VBShvng 1kV | Outer diameter, mm | Section VBShvng 0.66 kV | Outer diameter, mm |
2x1.5 | 12.6 | 2x1.5 | 11.8 |
2x2.5 | 13.4 | 2x2.5 | 12.5 |
2x4 | 15 | 2x4 | 13.9 |
2x6 | 16 | 2x6 | 14.9 |
2x10 | 17.8 | 2x10 | 17.3 |
2x16 | 21 | 2x16 | 20.6 |
2x25 | 22.8 | 2x25 | 22.8 |
2x35 | 25.2 | 2x35 | 25.2 |
2x50 | 28.2 | 2x50 | 28.2 |
2x70 | 31.6 | 3x1.5 | 12.2 |
2x95 | 37.4 | 3x2.5 | 13 |
2x120 | 40.4 | 3x4 | 14.4 |
2x150 | 45.6 | 3x6 | 15.5 |
2x185 | 49.6 | 3x10 | 18.1 |
2x240 | 57 | 3x16 | 21.7 |
3x1.5 | 13.1 | 3x25 | 24.4 |
3x2.5 | 13.9 | 3x35 | 26.6 |
3x4 | 15.6 | 3x50 | 29.8 |
3x6 | 16.7 | 3x25+1x16 | 26.6 |
3x10 | 18.7 | 3x35+1x16 | 28.1 |
3x16 | 22.1 | 3x50+1x25 | 31.5 |
3x25 | 24.4 | 4x1.5 | 12.9 |
3x35 | 26.6 | 4x2.5 | 13.8 |
3x50 | 29.8 | 4x4 | 15.4 |
3x70 | 33.7 | 4x6 | 16.6 |
3x95 | 38.4 | 4x10 | 19.5 |
3x120 | 41 | 4x16 | 23.5 |
3x150 | 45.3 | 4x25 | 26.6 |
3x185 | 49.4 | 4x35 | 29 |
3x240 | 56.2 | 4x50 | 33 |
4x1.5 | 13.9 | 5x1.5 | 13.6 |
4x2.5 | 14.8 | 5x2.5 | 14.7 |
4x4 | 16.8 | 5x4 | 16.5 |
4x6 | 18 | 5x6 | 17.8 |
4x10 | 20.1 | 5x10 | 21.1 |
4x16 | 24.4 | 5x16 | 26 |
4x25 | 26.6 | 5x25 | 28.9 |
4x35 | 29 | 5x35 | 31.6 |
4x50 | 33 | 5x50 | 36.9 |
4x70 | 37.5 | ||
4x95 | 41.6 | ||
4x120 | 45.4 | ||
4x150 | 48.8 | ||
4x185 | 53.6 | ||
4x240 | 60 | ||
5x1.5 | 14.8 | ||
5x2.5 | 15.9 | ||
5x4 | 18 | ||
5x6 | 19.4 | ||
5x10 | 21.8 | ||
5x16 | 26.5 | ||
5x25 | 29.5 | ||
5x35 | 32.6 | ||
5x50 | 37.4 | ||
5x70 | 41 | ||
5x95 | 46.2 | ||
5x120 | 49.4 | ||
5x150 | 54 | ||
5x185 | 59.4 | ||
5x240 | 66.7 |
Application area
Cables of the VBBShvng brand are used for the transmission and distribution of electricity with stationary installation at a rated alternating voltage of 0.66 kV and 1 kV frequency of 50 Hz.
VBBShvng cables are intended for use in trenches, ground, indoors, outdoors, electrical installation products (channels, pipes, trays, tunnels, etc.); use in the presence of minor tensile forces is allowed. It is advisable to use in cases where mechanical stress on the cable is possible and increased fire safety is required to prevent the spread of combustion when laying cables in bundles, they correspond to category A GOST 12176.
Operating instructions:
- Table of maximum voltages of electrical networks for which the VBBShvng cable is used:
Rated cable voltage, kV Maximum voltage of the three-phase network for which the cable is intended, kV 0,66 0,72 1,0 1,2 - VBBShvng cables must be used in accordance with the “Unified Technical Guidelines for the Selection and Use of Electrical Cables”.
- It is advisable to use VBBShvng cables for laying in the ground (trenches). Cable laying must be carried out in accordance with the current “Electrical Installation Rules” (PUE) and technical documentation approved in the prescribed manner.
- It is allowed to lay cables without preheating at a temperature not lower than minus 15 °C.
- The minimum bending radius during installation must be at least 7.5 Dn for multi-core cables and at least 10 Dn for single-core cables (Dn is the outer diameter of the cable, mm.)
- The long-term permissible heating temperature of the cores during operation should not exceed 70 °C.
- The maximum permissible core temperature during a short circuit should not exceed 160 °C. The duration of the short circuit should not exceed 4 seconds.
- The permissible heating of cable cores in emergency mode should not exceed 80 °C. The duration of cable operation in emergency mode should not exceed 8 hours per day and 1000 hours over the entire service life of the cable.
- VBBShvng cables can be used in DC networks at voltage values 2.4 times higher than the voltage between the core and the screen or metal sheath.
- The electrical insulation resistance per 1 km of length, measured at the long-term permissible heating temperature of the cable cores during operation, must be at least 0.005 MOhm.
- Permissible current loads and permissible short-circuit currents must correspond to the table values:
Nominal core cross-section, mm2 Permissible current loads on cable VBBShvng, A Permissible one-second short circuit current of VBBShvng cables, kA Double-core Three-core On air In the ground On air In the ground 1,5 24 33 21 28 0,17 2,5 33 44 28 37 0,27 4 44 56 37 48 0,43 6 56 71 49 58 0,65 10 76 94 66 77 1,09 16 101 123 87 100 1,74 25 134 157 115 130 2,78 35 166 190 141 158 3,86 50 208 230 177 192 5,23 70 — — 226 237 7,54 95 — — 274 283 10,48 120 — — 321 321 13,21 150 — — 370 363 16,30 185 — — 421 406 20,39 240 — — 499 468 26,80